Kinematics

The more massive horse that is moving at the same speed will have greater kinetic energy.

How do you define large and small? A small fat horse may have more mass than a large skinny horse.

1 mile (mi) = 5280 feet (ft)

50 mi = 264,000 ft

50 mi/hour = 50/60 mi/min

264,000 ft/hour = 264,000/60 ft/min = 4,400 ft/min

that impossible to answer but just think very fast one of the fastest if not the fastest punchers ever

That is the distance between the load and the fulcrum. The load may be on the far side, or the near side of the fulcrum.

One often overlooked fact, is that as the distance from load to fulcrum increases, the load on the fulcrum decreases.

80MPH is faster. 80 kph or km/h converts to 49.7096954 mph.

61 miles per hour is 98.17 kilometers per hour.

Given a position vs. time graph, all sorts of analyses can be done. The slope through two points on the graph represents the change in position over the change in time, or the velocity. More precisely, this is equal to dx/dt where x models position and t is time. This is known as the derivative of the function.

Moreover, we can take d2x/dt2 (the second derivative) to obtain acceleration, another useful thing to know.

54 km per second is equal to 120,794.56 mph

A measurement of 70cc refers to the volume of a cylinder in cubic centimeters, not a speed measurement like miles per hour. To calculate speed in miles per hour (MPH), you would need additional information such as engine power, gearing, and other factors.

2 feet per second = 0.6096 meters per second.

No, you've got it backwards. The absolute value of velocity equals speed. Velocity is speed with a direction; speed is just a number, without regard to direction.

140 km per hour is equivalent to approximately 87 miles per hour.

Potential energy = mass * gravity * height

Ep=mgh

You should know the mass of the object and gravity as 9.81.

So rearranging the formule Ep/mg=h.

Potential energy / (mass * gravity) = height.

At 35 km per hour, the wind is blowing at approximately 21.74 miles per hour.

The barbell with potential energy was raised to a certain height, which gave it gravitational potential energy due to its position relative to the ground. The other barbell did not have potential energy because it was resting on the ground and its position did not allow for any stored energy.

The kinetic energy of the diver can be calculated using the formula: KE = 0.5 * mass * velocity^2. Plugging in the values for the mass (60 kg) and velocity (10 m/s), we get KE = 0.5 * 60 * 10^2 = 3000 J. Thus, the kinetic energy of the 60-kg diver falling at 10 m/s is 3000 Joules.

Potential energy is stored energy that an object has due to its position or condition. Kinetic energy is the energy an object possesses due to its motion. Both forms of energy can be thought of as resulting from the interactions of particles and forces within an object.

Yes, a body can have a nonzero average speed but zero average velocity if it moves around a closed path and returns to its starting point. For example, if a car travels around a circular track at a constant speed, its average speed will be nonzero (as distance is covered), but its average velocity over the entire trip will be zero as the displacement is zero.

To calculate the kinetic energy, multiply the mass times the velocity squared and divide by 2. (Mass in kilograms, speed in meters/sec, yields energy in joules.)

The equation is

KE= 1/2 (mv2)

Kinetic Energy= one-half (mass times velocity squared)

Drive alongside it in another vehicle and then move stuff onto the truck. This will increase the mass of the [whole] truck and so increase its KE. This is dangerous so do not try it!

152 miles per hour is 244.62 kilometers per hour.

Mph stands for miles per hour, which is a measurement of speed.

40 mph is equivalent to 64.37 km/h.

Kinetic energy effects changes of state because it is when energy that has been held up inside the object (aka potential energy), is finally released.

For example: On a roller coaster, the cart goes up a hill. At the top of the hill, right before it is about to go down another hill, it has potential energy, or stored up energy. Then whe it is going down the hill, all the energy is released and now the energy is in the form of kinetic.

Another example: A marble is attached onto the end of a string. You pull the marble back. While being held back, the marble has potential energy. When you let the marble go, that energy turns into potential energy, because it is in motion.

Defintions:

Potential energy: Energy that is stored up

Kinetic energy: Energy in motion